Changes in Aporia crataegi’s potential habitats in accordance with climate changes in the northeast Asia
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초록
This study was conducted in an effort to provide important clues pertaining to the conservation and restoration of Aporia crataegi by identifying the spatial distribution characteristics of the current habitats, prospective habitats, and future habitats of A. crataegi in accordance with climate changes. To determine the distribution of A. crataegi, data from a total of 36 collecting points throughout South Korea, North Korea, China, Japan, Mongolia, and Russia are used. The spatial distributions of the data were examined through MaxEnt modeling. The distribution probability rates exceeded 75% at 18 locations among the 36 species occurrence locations, with Gangwon province showing the highest distribution prob¬ability in South Korea. The precision of the MaxEnt model was remarkably high, with an AUC value of 0.982. The vari¬ables that affect the potential distribution of A. crataegi by more than 10% are the degree of temperature seasonality, the amount of precipitation in the warmest quarter, the annual mean temperature, and the amount of precipitation in the driest month, in that order of importance. It was found that the future potential distribution area of A. crataegi continu¬ously moves northward over time up to 2070s. In addition, the area of the potential distribution showing a habitable prob¬ability rate that exceeds 75% in northeast Asia was 28,492 km2, where the area of potential distribution in the north part of Korean peninsula was 20.404 km2 in size. Thus, it is anticipated that the most important future habitats of A. crataegi in the northeast Asia will be North and South Hamgyeong provinces and Ryanggang province near Mt. Baekdoosan in the northern area of the Korean peninsula.
Abstract
This study was conducted in an effort to provide important clues pertaining to the conservation and restoration of Aporia crataegi by identifying the spatial distribution characteristics of the current habitats, prospective habitats, and future habitats of A. crataegi in accordance with climate changes. To determine the distribution of A. crataegi, data from a total of 36 collecting points throughout South Korea, North Korea, China, Japan, Mongolia, and Russia are used. The spatial distributions of the data were examined through MaxEnt modeling. The distribution probability rates exceeded 75% at 18 locations among the 36 species occurrence locations, with Gangwon province showing the highest distribution prob¬ability in South Korea. The precision of the MaxEnt model was remarkably high, with an AUC value of 0.982. The vari¬ables that affect the potential distribution of A. crataegi by more than 10% are the degree of temperature seasonality, the amount of precipitation in the warmest quarter, the annual mean temperature, and the amount of precipitation in the driest month, in that order of importance. It was found that the future potential distribution area of A. crataegi continu¬ously moves northward over time up to 2070s. In addition, the area of the potential distribution showing a habitable prob¬ability rate that exceeds 75% in northeast Asia was 28,492 km2, where the area of potential distribution in the north part of Korean peninsula was 20.404 km2 in size. Thus, it is anticipated that the most important future habitats of A. crataegi in the northeast Asia will be North and South Hamgyeong provinces and Ryanggang province near Mt. Baekdoosan in the northern area of the Korean peninsula.
참고문헌 (19)
- Boldwin RA, "Use of maximum entropy modeling in wildlife research", Entropy, 11, pp.854~866 (2009)
- Chefaoui RM, "Potential distribution modelling, niche characterization and conservation status assessment using GIS tools: a case study of Iberian Copris species", Biol Conserv, 122, pp.327~338 (2005)
- Choi SW, "The past and current status of endangered butterflies in Korea", Entomol Sci, 15, pp.1~12 (2012)
- ESRI, "ArcGIS Desktop: Release 10", Environmental Systems Research Institute, ~ (2011)
- Gorbunov PY, "The butterflies of Russia: classification, genitalia, keys for identification (Lepidoptera: Hesperioidea and Papilionoidea)", 박사, pp.2001
- Hijmans RJ, "Very high resolution interpolated climate surfaces for global land areas", Int J Climatol, 25, pp.1965~1978 (2005)
- Jiang T, "A preliminary investigation of damage in forest by Aporia crataegi and Nymphalis xanthomelas in Xinjing", Entomol Knowl, 41, pp.238~240 (2004)
- Kawazoé A, "Colored Illustrations of the Butterflies of Japan" (1998), Hoikusha
- Kim YS, "Illustrated Book of Korean Butterflies in Color" (2002), Kyo-Hak Publishing
- "Korea’s future climate" (2015)[URL]
- Paek M, "Butterflies of the Korean Peninsula" (2010), Nature and Ecology
- Paek M, "Guide Book of Butterflies in Korean Peninsula" (2014), Nature and Ecology
- "Endangered plants and animals: insect 4: Aporia" (2005)[URL]
- Park HC, "DNA barcode analysis for conservation of an endangered species, Aporia crataegi (Lepidoptera, Pieridae) in Korea", J Seric Entomol Sci, 51, pp.201~206 (2013)
- Jeong Sun Park, "Description of complete mitochondrial genome of the black-veined white, Aporia crataegi (Lepidoptera: Papilionoidea), and comparison to papilionoid species", Journal of Asia-Pacific Entomology, 15(3), pp.331~341 (2012), 한국응용곤충학회
- Phillips SJ, "Maximum entropy modeling of species geographic distributions", Ecol Model, 190, pp.231~259 (2006)
- Phillips SJ, "Modeling of species distributions with Maxent: new extensions and a comprehensive evaluation", Ecography, 31, pp.161~175 (2008)
- Santos X, "Habitat suitability, threats and conservation of isolated populations of the smooth snake (Coronella austriaca) in the southern Iberian Peninsula", Biol Conserv, 142, pp.344~352 (2009)
- Seok DM, "On the butterflies collected in Is. Quelpart, with the description of a new subspecies", Zephyrus, 7, pp.150~174 (1937)
